子分类：
| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 41 | GEAR OR PROFILE GRINDING MACHINE AND METHOD FOR THE OPERATION OF SUCH A MACHINE | US15008759 | 2016-01-28 | US20160214195A1 | 2016-07-28 | Achim STEGNER; Sven THIERFELDER; Andreas WELLEIN |
| A gear or profile grinding machine and a method for operating such a machine, especially for grinding of pre-geared or pre-profiled workpieces, wherein the machine includes at least one tool spindle which can receive at least one grinding tool, and at least one workpiece spindle which is movably arranged at a carrier element and which can be driven up to the tool spindle for an at least temporary cooperation of the workpiece with the grinding tool by at least one drive. To enhance the precision of the machine at growing workpieces with simple measures, at least one mass is arranged at or in the carrier element, which is arranged movable at or on a guiding element by a drive element, wherein the mass is permanently free from any contact with another machine part and/or workpiece part and/or tool part. | ||||||
| 42 | Surface-coated cutting tool | US14278380 | 2014-05-15 | USRE45719E1 | 2015-10-06 | Koichi Maeda; Masanori Morikawa; Yuki Matsuoka; Natsuki Ichimiya |
| This invention provides a surface-coated cutting tool which exhibits excellent fracture resistance and wear resistance in high-speed cutting, such as high-speed gear cutting, high-speed milling, and high-speed drilling. The surface-coated cutting tool includes a hard coating layer composed of an alternately laminated layer structure of at least a thin layer A and a thin layer B formed on the surface of a tool substrate, such as a cemented carbide substrate, a cermet substrate, and a high-speed tool steel substrate. The thin layer A is an (Al, Cr, Si)N layer which satisfies a compositional formula: [AlXCrYSiZ]N (0.2≦X≦0.45, 0.4≦Y≦0.75, 0.01≦Z≦0.2, and X+Y+Z=1 in terms of atomic ratio). The thin layer B is an (Al, Ti, Si)N layer which satisfies a compositional formula: [AlUTiVSiW]N (0.05≦U≦0.75, 0.15≦V≦0.94, 0.01≦W≦0.1, and U+V+W=1 in terms of atomic ratio). | ||||||
| 43 | Tool, Method and Machine for Producing a Tooth Profile on a Workpiece by Skiving | US14483687 | 2014-09-11 | US20150078850A1 | 2015-03-19 | Joerg Schieke; Walter Holderbein |
| A tool, a method and a machine for producing a tooth profile by performing a coupled skiving movement between a skiving tool and the workpiece, by rotating the tool about a tool axis of rotation and rotating the workpiece about a workpiece axis of rotation. The tool includes a crown gear, on the front of which a tooth system with a cutting profile is located, which when in use reproduces the tooth profile on the workpiece. | ||||||
| 44 | METHOD FOR MASKING AND COATING CUTTING TOOL AND CUTTING TOOL HAVING WEAR-RESISTANT COATING IN SELECTED LOCATIONS | US14332591 | 2014-07-16 | US20140328637A1 | 2014-11-06 | Gregory L. Stout; Miguel Morfin Diaz; Mauro De Donno |
| A method in which a cutting tip of an intermediate cutting tool is masked and a wear-resistant material is deposited onto the exposed portion of the intermediate cutting tool to form a sharpened cutting tool. A finished cutting tool is also provided. | ||||||
| 45 | METHOD FOR FORMING WORKPIECES USING TOOL BLADES THAT ARE COATED IN A PROCESS THAT USES MASKING TO PARTLY COVER THE TOOL BLADES | US14192055 | 2014-02-27 | US20140173868A1 | 2014-06-26 | Gregory L. Stout; Miguel Morfin Diaz; Mauro De Donno |
| A method in which a cutting tip is ground to form an intermediate cutting tool; a first predetermined portion of the intermediate cutting tool is masked; a wear-resistant material is deposited onto the exposed portion of the intermediate cutting tool to form a sharpened cutting tool; and a workpiece is cut with the sharpened cutting tool. | ||||||
| 46 | Apparatus and method for masking and coating tool blades | US11580184 | 2006-10-12 | US08703240B2 | 2014-04-22 | Gregory L. Stout; Miguel Morfin Diaz; Mauro De Donno |
| A fixture for mounting and masking cutting tools includes a tool holder and a mask. The tool holder has a cavity adapted to receive a plurality of cutting tools. The mask is coupled to the holder and aligned with the plurality of cutting tools where a majority of the surface area of each cutting tool is covered by the tool holder and the mask. The mask includes a shaped portion having a profile adapted to substantially match the profile of the shaped cutting tip for the cutting tool. The mask is positioned to expose a portion of the cutting tool to the surrounding atmosphere. A method of masking and coating a cutting tool is also presented. | ||||||
| 47 | Surface-coated cutting tool | US12672736 | 2008-08-01 | US08354177B2 | 2013-01-15 | Koichi Maeda; Masanori Morikawa; Yuki Matsuoka; Natsuki Ichimiya |
| This invention provides a surface-coated cutting tool which exhibits excellent fracture resistance and wear resistance in high-speed cutting, such as high-speed gear cutting, high-speed milling, and high-speed drilling. The surface-coated cutting tool includes a hard coating layer composed of an alternately laminated layer structure of at least a thin layer A and a thin layer B formed on the surface of a tool substrate, such as a cemented carbide substrate, a cermet substrate, and a high-speed tool steel substrate. The thin layer A is an (Al, Cr, Si)N layer which satisfies a compositional formula: [AlXCrYSiZ]N (0.2≦X≦0.45, 0.4≦Y≦0.75, 0.01≦Z≦0.2, and X+Y+Z=1 in terms of atomic ratio). The thin layer B is an (Al, Ti, Si)N layer which satisfies a compositional formula: [AlUTiVSiW]N (0.05≦U≦0.75, 0.15≦V≦0.94, 0.01≦W≦0.1, and U+V+W=1 in terms of atomic ratio). | ||||||
| 48 | Method for generating of gear-shaped precision-working tools, in particular for regrinding shaving gears, and a gear-shaped tool, in particular a shaving gear, to which the method can be applied | US61864 | 1993-05-14 | US5377457A | 1995-01-03 | Herbert Loos; Manfred Erhardt |
| Gear-shaped precision-working tools, in particular shaving gears, capable of providing an optimum machining result only during a portion of their entire lifetime, since during each regrinding (generating), the profile displacement factor, and thus the number of the tooth flanks which engage successively and simultaneously one after the other the workpiece gear to be machined, is changed. This is remedied with the invention in such a manner that the precision-working tool is reground (generated) while maintaining the original number of teeth (z) and the original normal module of the pitch angle (.beta.), the module in transverse section and the base circle diameter are changed in such a manner that little or no change occurs to an original profile displacement factor (x). When the tool, which is to be reground (to be generated) in this manner, has grooved tooth flanks (12, 13), for grooves (14) increases continuously from a first groove (14') mutually adjacent one end of a tooth flank (12, 13) up to a second groove (14") mutually adjacent an other end of the same tooth flank, the grooves (14") having the greatest depth and the grooves (14') having the least on mutually adjacent and opposing tooth flanks (12, 13) opposing one another. | ||||||
| 49 | Method for determination of longitudinal and profile modification of tool gear tooth surface | US714330 | 1991-06-11 | US5092720A | 1992-03-03 | Nikolai A. Abysov; Valery A. Bezgodov; Vladimir S. Belgorodsky; Nikolai D. Plotnikov |
| A method for determination of longitudinal and profile modification of tool gear tooth (I) which linearly meshes with a gear to be machined, wherein modification parameters are determined from the following relationship: ##EQU1## where: .delta.--the amount of modification of the tool gear tooth (I) in a direction perpendicular to a radius r identifying the location of a contact point on a machining surface (5) relative to a centre (O) of rotation of the tool gear;p--the requisite change in the normal component of the cutting force;G--the rigidity of an arrangement providing for synchronous rotation of the gear blank and the tool gear as reduced to the tool gear axis. | ||||||
| 50 | Method for manufacture of toothed abrasive tool and method for finish-machining therewith | US392944 | 1989-07-28 | US5079877A | 1992-01-14 | Nikolai A. Abysov; Valery A. Bezgodov; Vladimir S. Belgorodsky; Nikolai D. Plotnikov |
| A method for manufacture of a toothed abrasive tool mating with the machining gear wheel (2) from a flat abrasive wheel (1) comprising axial feed of the flat abrasive wheel (1) and delivery of free abrasive material into the contact zone, and a method for finish machining with said tool of a gear wheel (2) comprising replacement of the free abrasive material by the cutting fluid and replacing the axial feed of the abrasive wheel (1) at the final stage of tool manufacture by the tangential feed of the gear wheel (2). | ||||||
| 51 | Deburring apparatus | US528749 | 1990-05-22 | US5052865A | 1991-10-01 | Anthony R. Kaczmarek |
| An apparatus for deburring radial end surfaces of axially oriented splines abutting annular grooves formed in workpieces such as mainshaft gears. The apparatus includes an axially oriented reference body and a splined workpiece support member rotatably mounted with respect to the reference body. Design of the apparatus is adaptable for deburring a workpiece having either male or female splines, wherein the splines are located in an annular recess disposed within the workpiece. In a preferred form, the apparatus includes a radially oriented cutting ring adapted to engage a radially extending groove for removal of burrs from rear surfaces of the axially extending splines. Also in a preferred form, the apparatus includes a device for axially adjusting the position of the cutting ring relative to various lengths of splines to be deburred. Finally, in the same preferred form, a spring is employed to axially bias the workpiece against the cutting ring so that the workpiece may be resiliently displaced upon occurrence of force spikes during the deburring process. | ||||||
| 52 | Machine tool for manufacture and dressing of tools and for finish-machining of gear wheels | US392918 | 1989-07-28 | US5020279A | 1991-06-04 | Nikolai A. Abysov; Valery A. Bezgodov; Vladimir S. Belgorodsky; Nikolai D. Plotnikov |
| A machine tool for the manufacture and dressing of tools and for finish-mining of gear wheels comprising three spindles (4, 5, 15) installed in the heads (2, 3, 17) of their own and provided with drives (8, 11), two of said spindles (4, 5) being synchronously connected with each other and the third spindle (15) is capable of free rotation and axial movement in the head (17) having radial and angular settings. | ||||||
| 53 | Method for chamfering the edges of gear teeth | US491126 | 1983-05-03 | US4548531A | 1985-10-22 | Leon H. Seitelman; Edward J. Kaveckas |
| The ends of gear teeth are chamfered using an arcuate motion cutter having a complex cross sectional shape. In an improvement of the prior trial and error techniques, the cutter shape is made correctly the first time using an algorithm which includes determining certain s-dimensions produced on a chamfer by a set of tool dimensions; comparing these to the desired maximum, minimum and nominal chamfer widths, and; then iteratively optimizing the set of tool dimensions to minimize the differences. | ||||||
| 54 | Gear tooth chamfering tool | US65421457 | 1957-04-22 | US3008218A | 1961-11-14 | MENTLEY MAX B |
| 55 | Gear lapping machine | US45083142 | 1942-07-14 | US2377241A | 1945-05-29 | KAVIE OSCAR C |
| 56 | Insertable blade cutter | US32567640 | 1940-03-25 | US2282306A | 1942-05-12 | CROSS RALPH E |
| 57 | Means for finishing gears by lapping, etc. | US50909931 | 1931-01-16 | US1955082A | 1934-04-17 | MILLER EDWARD W |
| 58 | Gear lapping machine and method of lapping gears | US36519329 | 1929-05-22 | US1853354A | 1932-04-12 | FOLLETT HODGKINS HENRY |
| 59 | METHOD FOR PRODUCING POLYCRYSTALLINE DIAMOND BODY, POLYCRYSTALLINE DIAMOND BODY, CUTTING TOOL, WEAR-RESISTANCE TOOL AND GRINDING TOOL | US15769378 | 2017-09-12 | US20180304378A1 | 2018-10-25 | Yuh Ishida; Hitoshi Sumiya |
| Provided is a method for producing a polycrystalline diamond body, the method including a first step of heat-treating a powder of high-pressure-phase carbon at higher than or equal to 1300° C. to obtain a heat-treated carbon powder, and a second step of sintering the heat-treated carbon powder under conditions of greater than or equal to 12 GPa and less than or equal to 25 GPa and higher than or equal to 1200° C. and lower than or equal to 2300° C. to obtain a polycrystalline diamond body. | ||||||
| 60 | SINTERED MATERIAL AND CUTTING TOOL INCLUDING SAME | US15747200 | 2017-01-05 | US20180215669A1 | 2018-08-02 | Kentaro Chihara; Satoru Kukino; Akito Ishii |
| A sintered material includes a first material and a second material, the first material being partially stabilized ZrO2 having a crystal grain boundary or crystal grain in which 5 to 90 volume % of Al2O3 is dispersed with respect to a whole of the first material, the second material including at least one of SiAlON, silicon nitride and titanium nitride, the sintered material including 1 to 50 volume % of the first material. | ||||||
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